Fig. 6 Specimen orientation scheme showing longitudinal, long transverse, and short transverse directionality. Six possible specimen designations are: L-S, L-T, S-L, S-T, T-L, and T-S. The first letter denotes the direction of the applied load; the second letter denotes the direction of crack More

Figure 8.7 Standard notation for specimen orientation. More

Fig. A6.1 Conventional specimen orientation code. Arrows indicate loading directions. L, longitudinal; T, transverse; S, short transverse. Note that T is the same as LT, or long-transverse; LS is also used for short-transverse. The axis of a tension test specimen is always parallel More

Fig. 7.20 Specimen orientation scheme showing the longitudinal, long-transverse, and short-transverse directions More

Fig. 35 Specimen orientation scheme showing the longitudinal, long transverse, and short transverse directions. There are six possible specimen designations: L-S, L-T, S-L, S-T, T-L, and T-S. The first letter denotes the direction of the applied load; the second letter denotes the direction More

Fig. 11 Specimen orientation and fracture plane identification. L, length, longitudinal, principal direction of metal working (rolling, extrusion, axis of forging); T, width, long-transverse grain direction; S, thickness, short-transverse grain direction; C, chord of cylindrical cross section More

Fig. 17.29 Specimen orientation and fracture plane identification. L, length, longitudinal, principal direction of metal working (rolling, extrusion, axis of forging); T, width, long-transverse grain direction; S, thickness, short-transverse grain direction; C, chord of cylindrical cross More

Fig. 9.9 Effect of sulfur content and specimen orientation on the upper shelf impact energy of rolled carbon steel plate. Source: Ref 9.38 More

Fig. 9.10 Effect of sulfur content and specimen orientation on impact toughness as a function of test temperature for 4340 plate steels hardened and tempered to two strength levels. Source: Ref 9.39 More

Fig. 7.34 Mount with a L-shaped strip to indicate specimen orientation More

Fig. 3-38 Effect of test specimen orientation and location on the tension test properties of a 150 lb (68 kg) wheel forging of water quenched and tempered AISI 1050 steel. Each bar on the chart represents maximum, minimum, and average values of three tests. ( 3 ) More

Fig. 17 Tensile specimen orientation to determine r 0 , r 45 , and r 90 in rolled sheet. More

Fig. 9.8 Orientation of crack in fracture specimen to major forming directions in plate stock. Source: Ref 9.14 More

Fig. 12.82 Effect of thermal solidification gradient, orientation of specimen relative to 〈001〉 direction, and HIP on strain-controlled LCF behavior of CMSX-2 alloy at 760 °C (1400 °F). Test frequency = 0.33 Hz. (a) strain vs. N f and (b) stress vs. N f More

Fig. 3 Bar graphs comparing (a) K lc and (b) K SCC (circumferential-radial specimen orientation) of low-cobalt-bearing, standard, and cobalt-free 18Ni-250 maraging steels. K ISCC testing was conducted in a marine atmosphere. More

Fig. 3.20 Bar graphs comparing (a) K IC and (b) K ISCC (circumferential-radial specimen orientation) of low-cobalt-bearing, standard, and cobalt-free 18Ni-250. K ISCC testing was conducted in a marine atmosphere. Source: Ref 3.3 More

Fig. 11 Comparison of properties of steel rotor forgings made from ESR and conventionally melted ingots. (a) Impact strength of grade X22CrMoV121. (b) Fracture toughness of grade 30CrMoNiV511. Specimen orientation and location are indicated next to curves. Source: Ref 9 to 11 More

Fig. A6.3 ASTM crack plane orientation identification code for specimens tilted with respect to reference direction. First letter: normal to the fracture plane (loading direction); second letter: direction of crack propagation in fracture plane More

Fig. 6.2 Orientation of the longitudinal and transverse Charpy specimens cut from steel sheet with sulfide stringer inclusions More